Build hands-on expertise in the principles behind quantum computing, communications, and devices
Close-up of stainless steel scientific vacuum chamber equipment in a laboratory setting

Overview

In the M.S. in Quantum Science and Technology program, you will gain a strong foundation in quantum mechanics, quantum programming, and device physics that springboards you into cutting-edge careers across technology, finance, defense, and research. As a student in the program, you will learn to orchestrate quantum algorithms, model quantum hardware architectures, and explore applications in quantum optics, machine learning, and secure communication. Through hands-on experience in specialized lab environments like the NYU Nanofab, you will bridge theoretical quantum physics with practical, scalable technologies designed for real-world impact.

180%

Increase in quantum-related job listings over the last 4 years
(McKinsey & Company Quantum Technology Monitor)

$181,000

Median Annual Quantum Computing Salary
(Glassdoor)

60% of Fortune 500

Expected to have a dedicated quantum computing strategy by 2025
(International Data Corporation / McKinsey Research)

Market Outlook

Hands holding an electronic research probe component

The NYC Advantage

NYU Tandon quantum students have a unique advantage: they are situated at the epicenter of New York City’s rapidly expanding quantum and technology ecosystem. Studying in NYC connects you directly to major commercial quantum initiatives, financial institutions developing quantum algorithms, and premier industry conferences like the NYU-hosted NYC Quantum Summit. You also gain physical access to state-of-the-art facilities like the NYU Nanofab — Brooklyn’s first academic cleanroom — and real-world infrastructure like NYU’s 10-mile quantum fiber testbed traversing the city. With NYC’s vibrant tech hub in your backyard, there is no better place to advance the future of quantum technology.

Learn more about NYU Tandon's impact on Quantum Sciences.

Elevated view of the Brooklyn Bridge stretching across the East River toward the Lower Manhattan skyline at golden hour, with sunlight flaring behind a waterfront building.

Curriculum

The Program may be completed on a full-time basis in one academic year (Fall, Spring, Summer), or within three years for students completing the program on a part-time basis. Incoming students are expected to have introductory-level knowledge in mechanics, electricity and magnetism, and waves and optics, as well as proficiency in vector calculus, linear algebra, differential equations, and python programming.

Requirement Area Credits
Core Courses 18
Lab 3
Electives 9
Total Credits 30

What are Quantum Technologies?

Hear NYU Tandon Applied Physics Department Chair John Di Bartolo, Industry Associate Professor Rupak Chatterjee and NYU Tandon Alum & CEO of Qunnect Noel Goddard discuss the three types of quantum technologies, the advantages and challenges of quantum, and how engineering students can gain expertise for the quantum future.
 

John Di Bartolo
Department Chair

Meet John Di Bartolo

Providing students with hands-on experience in quantum programming

Amelia Klein wearing goggles behind a machine in a dark room.
Faculty

Meet Amelia Klein

Bringing quantum optics into the classroom

RC
Faculty

Meet Rupak Chatterjee

Getting students excited about quantum computing

Student Experiences

Student Research

At NYU Tandon, students have numerous and diverse opportunities to engage in research that discovers solutions to real-world problems.

Nanofabrication Cleanroom

Building the future of quantum and enabling cutting-edge research in biosensing by transforming advanced materials into next-generation devices

Interior mechanism of a quantum computer showing gold-plated stages, vertical copper wiring, and intricate connections against a dark background

FAQs